Offering vertical take-off and landing (VTOL) capabilities and the ability to travel great distances are crucial for Urban Air Mobility (UAM) vehicles. These capabilities make hybrid VTOLs the clear front-runners among UAM platforms. On the other hand, concerns regarding the safety and reliability of autonomous aircraft have grown in response to the recent growth in aerial vehicle usage. As a result, monitoring the aircraft status to report any failures and recovering to prevent the loss of control when a failure happens are becoming increasingly important. Hybrid VTOLs can withstand some degree of actuator failure due to their intrinsic redundancy. Their aerodynamic performance, design, modeling, and control have all been addressed in the previous studies. However, research on their potential fault tolerance is still a less investigated field. In this workshop, we will present a summary of our work on aircraft fault detection and the recovery of our hybrid VTOL. First, we will go over our real-time aircraft-independent system for detecting actuator failures and abnormal behaviors. Then, in the context of our custom tiltrotor VTOL aircraft design, we talk about our optimization-based control allocation system, which utilizes the vehicle's configuration redundancy to recover from different actuation failures. Finally, we explore the ideas of how these parts can work together to provide a fail-safe system. We present our simulation and real-life experiments.
翻译:提供垂直起飞和着陆(VTOL)的能力和长途旅行的能力对于城市航空机动车辆至关重要。这些能力使混合VTOL成为UAM平台中明确的前台运行者。另一方面,由于最近航空飞行器使用量的增加,对自主飞机的安全和可靠性的担忧有所增长。因此,监测飞机状况以报告任何故障并恢复以防止在故障发生时失去控制。混合VTOL由于固有的冗余,能够承受某种程度的动因机失灵。它们的空气动力学性能、设计、建模和控制在以前的研究中都得到了处理。然而,关于它们的潜在过失容忍度的研究仍是一个较少的调查领域。在这个讲习班中,我们将概述我们在飞机故障探测和恢复我们混合VTOL的工作。首先,我们将审查我们的实时飞机依赖系统,以探测动作失灵和异常行为。然后,在我们定制的倾斜轨道VTOL飞机设计、设计、设计、模型模型模型和控控控都已经全部被处理。我们关于它们的潜在过失容忍度的研究仍是一个较少的调查领域。在这个讲习班中,我们将概述我们的机机故障探测和模拟操作系统是如何利用这些安全性操作的系统来进行真正的重复的。